 Cilium v1.5 Documentationreferred to as microservices, wherein a large applica�on is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applica�ons delivery. This shi� toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connec�vity between microservices. Tradi�onal Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly vola�le life cycle of containers causes these approaches to struggle0 码力 | 740 页 | 12.52 MB | 1 年前3 Cilium v1.5 Documentationreferred to as microservices, wherein a large applica�on is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applica�ons delivery. This shi� toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connec�vity between microservices. Tradi�onal Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly vola�le life cycle of containers causes these approaches to struggle0 码力 | 740 页 | 12.52 MB | 1 年前3
 Cilium v1.6 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 734 页 | 11.45 MB | 1 年前3 Cilium v1.6 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 734 页 | 11.45 MB | 1 年前3
 Cilium v1.7 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 885 页 | 12.41 MB | 1 年前3 Cilium v1.7 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 885 页 | 12.41 MB | 1 年前3
 Cilium v1.8 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 1124 页 | 21.33 MB | 1 年前3 Cilium v1.8 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 1124 页 | 21.33 MB | 1 年前3
 Cilium v1.9 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 1263 页 | 18.62 MB | 1 年前3 Cilium v1.9 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 1263 页 | 18.62 MB | 1 年前3
 Cilium v1.10 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 1307 页 | 19.26 MB | 1 年前3 Cilium v1.10 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 1307 页 | 19.26 MB | 1 年前3
 Cilium v1.11 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 1373 页 | 19.37 MB | 1 年前3 Cilium v1.11 Documentationreferred to as microservices, wherein a large application is split into small independent services that communicate with each other via APIs using lightweight protocols like HTTP. Microservices applications delivery. This shift toward highly dynamic microservices presents both a challenge and an opportunity in terms of securing connectivity between microservices. Traditional Linux network security approaches iptables) filter on IP address and TCP/UDP ports, but IP addresses frequently churn in dynamic microservices environments. The highly volatile life cycle of containers causes these approaches to struggle0 码力 | 1373 页 | 19.37 MB | 1 年前3
 openEuler OS Technical Whitepaper
Innovation Projects
(June, 2023)detect phases of Java heap under-utilization, and automatically reduce its heap usage. Assume 49 microservices are running and this feature is enabled. G1 can return unused committed memory when the CPU soaring volumes of data. It is a big challenge to efficiently implement traffic governance between microservices in a data center. Service meshes are one of next-generation microservice technologies that traditional virtualization technologies. StratoVirt can be applied in serverless scenarios such as microservices or function computing, and retains virtualization interfaces and designs for quickly importing0 码力 | 116 页 | 3.16 MB | 1 年前3 openEuler OS Technical Whitepaper
Innovation Projects
(June, 2023)detect phases of Java heap under-utilization, and automatically reduce its heap usage. Assume 49 microservices are running and this feature is enabled. G1 can return unused committed memory when the CPU soaring volumes of data. It is a big challenge to efficiently implement traffic governance between microservices in a data center. Service meshes are one of next-generation microservice technologies that traditional virtualization technologies. StratoVirt can be applied in serverless scenarios such as microservices or function computing, and retains virtualization interfaces and designs for quickly importing0 码力 | 116 页 | 3.16 MB | 1 年前3
 ubuntu server guidesimplified. It also helps to optimise resource use - particularly through its alignment with microservices architecture. To get started with Docker from a system administrator’s point of view, check out problems of missing dependencies. Application containers are particularly useful for running microservices. For more details about container tools available in the Ubuntu space, take a look at this overview0 码力 | 486 页 | 3.33 MB | 1 年前3 ubuntu server guidesimplified. It also helps to optimise resource use - particularly through its alignment with microservices architecture. To get started with Docker from a system administrator’s point of view, check out problems of missing dependencies. Application containers are particularly useful for running microservices. For more details about container tools available in the Ubuntu space, take a look at this overview0 码力 | 486 页 | 3.33 MB | 1 年前3
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